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Short-Wave Enhances Mesenchymal Stem Cell Recruitment in Fracture Healing by Increasing HIF-1 in Callus

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Short-Wave Enhances Mesenchymal Stem Cell Recruitment in Fracture Healing by Increasing HIF-1 in Callus Ye et al. Stem Cell Research & Therapy (2020) 11:382 https://doi.org/10.1186/s13287-020-01888-0 RESEARCH Open Access Short-wave enhances mesenchymal stem cell recruitment in fracture healing by increasing HIF-1 in callus Dongmei Ye1*† , Chen Chen2†, Qiwen Wang1,3, Qi Zhang1, Sha Li1 and Hongwei Liu1 Abstract Background: As a type of high-frequency electrotherapy, a short-wave can promote the fracture healing process; yet, its underlying therapeutic mechanisms remain unclear. Purpose: To observe the effect of Short-Wave therapy on mesenchymal stem cell (MSC) homing and relative mechanisms associated with fracture healing. Materials and methods: For in vivo study, the effect of Short-Wave therapy to fracture healing was examined in a stabilized femur fracture model of 40 SD rats. Radiography was used to analyze the morphology and microarchitecture of the callus. Additionally, fluorescence assays were used to analyze the GFP-labeled MSC homing after treatment in 20 nude mice with a femoral fracture. For in vitro study, osteoblast from newborn rats simulated fracture site was first irradiated by the Short-Wave; siRNA targeting HIF-1 was used to investigate the role of HIF-1. Osteoblast culture medium was then collected as chemotaxis content of MSC, and the migration of MSC from rats was evaluated using wound healing assay and trans-well chamber test. The expression of HIF-1 and its related factors were quantified by q RT-PCR, ELISA, and Western blot. Results: Our in vivo experiment indicated that Short-Wave therapy could promote MSC migration, increase local and serum HIF-1 and SDF-1 levels, induce changes in callus formation, and improve callus microarchitecture and mechanical properties, thus speeding up the healing process of the fracture site. Moreover, the in vitro results further indicated that Short-Wave therapy upregulated HIF-1 and SDF-1 expression in osteoblast and its cultured medium, as well as the expression of CXCR-4, β-catenin, F-actin, and phosphorylation levels of FAK in MSC. On the other hand, the inhibition of HIF-1α was significantly restrained by the inhibition of HIF-1α in osteoblast, and it partially inhibited the migration of MSC. Conclusions: These results suggested that Short-Wave therapy could increase HIF-1 in callus, which is one of the crucial mechanisms of chemotaxis MSC homing in fracture healing. Keywords: Mesenchymal stem cells, Short-Wave therapy, Recruitment, Fracture, HIF-1 * Correspondence: [email protected] †Dongmei Ye and Chen Chen contributed equally to this work. 1Department of Rehabilitation, Affiliated Zhongshan Hospital of Dalian University, Dalian 116001, China Full list of author information is available at the end of the article © The Author(s). 2020 Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article's Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article's Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/. The Creative Commons Public Domain Dedication waiver (http://creativecommons.org/publicdomain/zero/1.0/) applies to the data made available in this article, unless otherwise stated in a credit line to the data. Ye et al. Stem Cell Research & Therapy (2020) 11:382 Page 2 of 16 Introduction fracture in the animal model and assessed the healing of Fracture healing is a biologically optimized process. fracture using the radiographs. Also, in vivo biolumines- Mesenchymal stem cells (MSCs) are multipotent stromal cent assays and callus histo-immunofluorescence were cells that can differentiate into multiple cell types such applied to evaluate the MSC migration. HIF-1 and re- as chondrocytes and osteocytes and thus have an essen- lated factors were also detected. siRNA targeted HIF-1α tial role in the bone healing process [1]. While fracture was transfected to clarify its effect in Short-Wave ther- healing, circulating MSC can receive signals from the in- apy (Fig. 1). This study aimed to investigate the impact jured tissue and migrate to the damaged sites. Over the of Short-Wave therapy on MSC recruitment and explore last decade, several strategies for fracture healing have the underlying mechanisms of Short-Wave therapy on been investigated, including the stimulation of endogen- fracture healing. ous stem cell populations from the mature body [2, 3]. An alternative strategy is the use of exogenous stem Materials and methods cells, which can be obtained from connective tissues and MSC isolation and identification are controlled by the expression of molecules during MSC was isolated from femurs of 3-week-old male SD MSC expansion, such as CXCR4 and complement 1q rats, as previously described [22]. Before performing any (C1q) [4, 5], or by certain chemicals [6], such as valpro- experiment, cells were passaged for 3 to 6 times. The ate or lithium, which are involved in MSC homing and surface marker expressions of MSC, including CD90, can trigger the expression of certain key factors. Since CD44, CD34, CD45, and CD11b/c, were analyzed by the mobilization is a kind of directional migration, both flow cytometry assay, as described in the previous study endogenous and exogenous MSC recruitment is related [23, 24]. to the condition of the fracture site. Currently, re- searchers are focusing on improving the condition of Animal grouping MSC recruitment by using biological agents. Clinical- A total of 40 male SD rats, 8–12 weeks old, weighing standard platelet products loaded membranes [7] and 350–500 g, were obtained from Laboratory Animal Cen- naringin [8] successfully support MSC colony formation ter of Dalian Medical University, China. Rats were and promote MSC migration in vitro. Furthermore, housed in an environment with a temperature of 22 ± MSC migration can be improved under hypoxic condi- 1 °C, a relative humidity of 50 ± 1%, and a light/dark tions. Previous studies have suggested that hypoxic con- cycle of 12/12 h. ditions decrease the MMP secretion and increase After 1 week of adaptation, 40 SD rats were accurately CXCR4 expression [9, 10]. However, the effect of phys- weighed and randomly divided into two groups (n = 20/ ical agency therapy on MSC migration has not received group): Short-Wave treatment group (SW) and control adequate attention. group (Con). All rats underwent surgery to establish the Short-Wave therapy is a type of high-frequency elec- femoral shaft fracture and intramedullary fixation model. trotherapy, which can promote the fracture healing For in vivo bioluminescent assays to the MSC homing, process [11, 12]. At high frequencies, the electromag- 20 nude mice of femoral shaft fracture were injected MSC netic energy is converted to thermal energy, which can labeled by the GFP (MG) and then randomly divided into induce heat (temperature over 40 °C) to the treated area two groups, including a Short-Wave treatment group of the body [13], where the heating process affects blood (MG+SW) and a control group (MG) (n = 10/group). flow [14] and decreases pain [15]. Accumulating evi- dence has indicated that both hypoxia and hypoxia- Stabilized fracture model driven angiogenesis can be regulated by thermal therapy Stabilized right femur fractures were established by [16]. The hypoxia-inducible factor (HIF) involved signal- intramedullary fixation in 8–12-week-old male SD rats. ing pathway is activated under hypoxia. HIF protein, es- A 0.25-mm titanium alloy pin was inserted inside the pecially HIF-1α, has been associated with MSC medullar canal of the femur. A three-point bending de- migration and differentiation [17]. As a critical transcrip- vice was then used to produce closed fractures of the tional regulator, HIF-1 can regulate the expression of femoral shaft with a standardized force [25]. In 20 male multiple cytokines, such as stromal cell-derived factor 1 nude mice, transverse osteotomy with a 1-mm bone (SDF-1) [10, 18] and focal adhesion kinase (FAK) [19], fracture was created in the middle of the right femur in which has a central role in the adaptation of MSC to the same way. Buprenorphine was subcutaneously ad- hypoxia [20, 21]. ministered (0.5 mg/kg) for pain control. The present study explored the effects of Short-Wave therapy on HIF-1 expression in fracture and MSC re- Cell injection cruitment from peripheral blood during fracture healing. All the 20 nude mice received injections with 5 × 106/ Accordingly, we applied Short-Wave treatment on the 50 μl GFP-labeled MSC (MG) (C57BL/6 mouse strain) Ye et al. Stem Cell Research & Therapy (2020) 11:382 Page 3 of 16 Fig. 1 Flowchart of the study design. Stabilized femur fractures were established in 40 SD rats. Radiographs and micro-CT analysis examined the effect of Short-Wave on fracture healing. The expression of HIF-1 and other factors in callus was tested by q RT-PCR. SDF-1 in plasma was evaluated by ELISA. To analyze the MSC migration in healing, in vivo fluorescence assays and immunofluorescence were used after treatment in 20 nude mice with a femoral fracture. For in vitro study, osteoblast simulated fracture site was first irradiated by the Short-Wave; CoCl2 in medium stimulated hypoxia condition; siRNA targeting HIF-1 was used to investigate the role of HIF-1.
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